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腹侧前置运动皮层在视觉节拍手指敲击任务中的功能作用:一项 TMS 研究。

The functional role of the ventral premotor cortex in a visually paced finger tapping task: a TMS study.

机构信息

Systems Biology Technologies, Technologies and Health Department, Istituto Superiore di Sanità, Rome, Italy.

出版信息

Behav Brain Res. 2011 Jul 7;220(2):325-30. doi: 10.1016/j.bbr.2011.02.017. Epub 2011 Feb 17.

DOI:10.1016/j.bbr.2011.02.017
PMID:21333693
Abstract

The accurate control of timed actions is a fundamental aspect of our daily activities. Repetitive movements can be either self-paced or synchronized with an external stimulus. Finger tapping (FT) is a suitable task to study the mechanisms of motor timing in both conditions. The neuronal network supporting motor timing in FT tasks comprises the lateral cerebellum, the lateral and mesial premotor areas as well as parietal sites. It has been suggested that lateral premotor cortices (PMC) are involved in time representation and sensorimotor transformations needed for synchronization. Most studies have focused on the dorsal aspect of PMC (dPMC) whereas the ventral PMC (vPMC) function has been poorly investigated. Here we used an online transcranial magnetic stimulation (TMS) protocol to probe the role of vPMC in an FT task, as compared to a functionally relevant site (dPMC) and an unrelated one. According to the synchronization-continuation paradigm, subjects had to synchronize their tapping to a periodic continuous visual stimulus, and then continue without the external pacer. Two different visual pacers were used: a tapping finger and a hinged tilting bar. We show that TMS reduced the synchronization error when delivered to the vPMC. This effect was larger when the more abstract hinged tilting bar was used as a pacer instead of the finger. No effects were observed in the continuation phase. We hereby offer the first online-TMS evidence of the involvement of vPMC in visually cued FT tasks.

摘要

精确控制定时动作是我们日常活动的一个基本方面。重复性运动既可以自我调节,也可以与外部刺激同步。手指敲击(FT)是研究自我调节和与外部刺激同步两种条件下运动定时机制的合适任务。支持 FT 任务中运动定时的神经网络包括外侧小脑、外侧和内侧运动前区以及顶叶部位。有人认为外侧运动前皮质(PMC)参与时间表示和同步所需的感觉运动转换。大多数研究都集中在 PMC 的背侧(dPMC),而对腹侧 PMC(vPMC)的功能研究较少。在这里,我们使用在线经颅磁刺激(TMS)方案来研究 vPMC 在 FT 任务中的作用,与功能相关的部位(dPMC)和不相关的部位进行比较。根据同步延续范式,受试者必须根据周期性连续视觉刺激进行敲击,然后在没有外部节拍器的情况下继续敲击。我们使用了两种不同的视觉节拍器:敲击手指和铰接倾斜棒。我们发现,当 vPMC 接受 TMS 刺激时,同步误差会减小。当使用更抽象的铰接倾斜棒作为节拍器而不是手指时,这种效果更大。在延续阶段没有观察到效果。我们提供了第一个在线-TMS 证据,证明 vPMC 参与了视觉提示 FT 任务。

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